Bang-Bang Control Development of Permeability Changes in a Membrane Model
Robert F. Melendy

TL;DR
This paper applies control theory, specifically bang-bang control, to model how nerve membranes regulate permeability, providing insights into neural activity regulation and membrane adaptation mechanisms.
Contribution
It introduces a novel bang-bang control policy for membrane permeability regulation based on Lyapunov's stability, linking control theory with neural membrane dynamics.
Findings
Permeability regulation driven by a switching function dependent on membrane potential.
Control policy effectively drives membrane from unstable firing to resting state.
Integration of control theory with Hodgkin-Huxley equations enhances understanding of neural regulation.
Abstract
The application of systems and control theory to membrane physiology is presented here. Modeling efforts have focused on describing those physiologically realistic mechanisms which govern the regulation of membrane permeability in nerve. The motivation behind identifying such mechanisms lies in understanding the morphology of neural activity on a meaningful and analytically tractable level. The suggested merit of integrating control theory into the analysis lies in providing how a membrane effectively adapts to changes in permeability and through what governing mechanisms. The value in producing such an understanding lies in mirroring biological reality in a more formal manner than could be achieved solely through experimental means. A bang-bang control policy describing the permeability correction mechanisms is developed using Liapunov's Stability Criteria. Both changes in membrane…
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Taxonomy
TopicsPhotoreceptor and optogenetics research · Lipid Membrane Structure and Behavior · Nonlinear Dynamics and Pattern Formation
